#plastid — Public Fediverse posts

Eggs released in the environment are at risk from many threats. This Primer explores a new @PLOSBiology study showing how #plastid -derived #carotenoid crystals benefit larval survival & trans-oceanic dispersal in #SeaUrchin eggs. Paper: https://plos.io/4mOAxZh Primer: https://plos.io/4cPpBGr

Eggs released in the environment are at risk from many threats. This Primer explores a new @PLOSBiology study showing how #plastid -derived #carotenoid crystals benefit larval survival & trans-oceanic dispersal in #SeaUrchin eggs. Paper: https://plos.io/4mOAxZh Primer: https://plos.io/4cPpBGr

Eggs released in the environment are at risk from many threats. This Primer explores a new @PLOSBiology study showing how #plastid -derived #carotenoid crystals benefit larval survival & trans-oceanic dispersal in #SeaUrchin eggs. Paper: https://plos.io/4mOAxZh Primer: https://plos.io/4cPpBGr

Eggs released in the environment are at risk from many threats. This Primer explores a new @PLOSBiology study showing how #plastid -derived #carotenoid crystals benefit larval survival & trans-oceanic dispersal in #SeaUrchin eggs. Paper: https://plos.io/4mOAxZh Primer: https://plos.io/4cPpBGr

Eggs released in the environment are at risk from many threats. This Primer explores a new @PLOSBiology study showing how #plastid -derived #carotenoid crystals benefit larval survival & trans-oceanic dispersal in #SeaUrchin eggs. Paper: https://plos.io/4mOAxZh Primer: https://plos.io/4cPpBGr

Development in the sea is tough and can end in starvation. This study shows that #SeaUrchin eggs contain a #plastid -derived structure whose light-dependent activity influences phytohormone & lipid metabolism, as well as offspring development & survival @PLOSBiology https://plos.io/4mOAxZh

Development in the sea is tough and can end in starvation. This study shows that #SeaUrchin eggs contain a #plastid -derived structure whose light-dependent activity influences phytohormone & lipid metabolism, as well as offspring development & survival @PLOSBiology https://plos.io/4mOAxZh

Development in the sea is tough and can end in starvation. This study shows that #SeaUrchin eggs contain a #plastid -derived structure whose light-dependent activity influences phytohormone & lipid metabolism, as well as offspring development & survival @PLOSBiology https://plos.io/4mOAxZh

Development in the sea is tough and can end in starvation. This study shows that #SeaUrchin eggs contain a #plastid -derived structure whose light-dependent activity influences phytohormone & lipid metabolism, as well as offspring development & survival @PLOSBiology https://plos.io/4mOAxZh

Development in the sea is tough and can end in starvation. This study shows that #SeaUrchin eggs contain a #plastid -derived structure whose light-dependent activity influences phytohormone & lipid metabolism, as well as offspring development & survival @PLOSBiology https://plos.io/4mOAxZh

Hu et al. shed some💡#light💡on the mechanisms underlying light-mediated post-transcriptional #regulation of #plastid #gene expression.
https://doi.org/10.1111/jipb.13779
@wileyplantsci
#JIPB #PlantScience #RNA #plant #PlantDevelopment #Arabidopsis #HY5 #PIF1

Hu et al. shed some💡#light💡on the mechanisms underlying light-mediated post-transcriptional #regulation of #plastid #gene expression.
https://doi.org/10.1111/jipb.13779
@wileyplantsci
#JIPB #PlantScience #RNA #plant #PlantDevelopment #Arabidopsis #HY5 #PIF1

The evolutionary history of plant #plastid & #mitochondrial proteomes reveals that major changes in #organelle biology may have facilitated #plant diversification and the emergence of major lineages such as land plants @Parthkr21 @watertoland #PLOSBiology https://plos.io/3wngsUn

The evolutionary history of plant #plastid & #mitochondrial proteomes reveals that major changes in #organelle biology may have facilitated #plant diversification and the emergence of major lineages such as land plants @Parthkr21 @watertoland #PLOSBiology https://plos.io/3wngsUn

The evolutionary history of plant #plastid & #mitochondrial proteomes reveals that major changes in #organelle biology may have facilitated #plant diversification and the emergence of major lineages such as land plants @Parthkr21 @watertoland #PLOSBiology https://plos.io/3wngsUn

The evolutionary history of plant #plastid & #mitochondrial proteomes reveals that major changes in #organelle biology may have facilitated #plant diversification and the emergence of major lineages such as land plants @Parthkr21 @watertoland #PLOSBiology https://plos.io/3wngsUn

The evolutionary history of plant #plastid & #mitochondrial proteomes reveals that major changes in #organelle biology may have facilitated #plant diversification and the emergence of major lineages such as land plants @Parthkr21 @watertoland #PLOSBiology https://plos.io/3wngsUn

Just read this, https://www.pnas.org/doi/10.1073/pnas.2317240121, that extraordinary high rate of mtDNA evolution in some plants is associated low mtDNA copy number. Lower Ne is the obvious explanation - but the authors instead put fwd homologous recombination, because it is less effective in low copy number environments. More complicated explanation, with no direct evidence? Thoughts?
#genomics #mtDNA #mitochondria #plastid #plants

Just read this, https://www.pnas.org/doi/10.1073/pnas.2317240121, that extraordinary high rate of mtDNA evolution in some plants is associated low mtDNA copy number. Lower Ne is the obvious explanation - but the authors instead put fwd homologous recombination, because it is less effective in low copy number environments. More complicated explanation, with no direct evidence? Thoughts?
#genomics #mtDNA #mitochondria #plastid #plants

Just read this, https://www.pnas.org/doi/10.1073/pnas.2317240121, that extraordinary high rate of mtDNA evolution in some plants is associated low mtDNA copy number. Lower Ne is the obvious explanation - but the authors instead put fwd homologous recombination, because it is less effective in low copy number environments. More complicated explanation, with no direct evidence? Thoughts?
#genomics #mtDNA #mitochondria #plastid #plants

Just read this, https://www.pnas.org/doi/10.1073/pnas.2317240121, that extraordinary high rate of mtDNA evolution in some plants is associated low mtDNA copy number. Lower Ne is the obvious explanation - but the authors instead put fwd homologous recombination, because it is less effective in low copy number environments. More complicated explanation, with no direct evidence? Thoughts?
#genomics #mtDNA #mitochondria #plastid #plants

Just read this, https://www.pnas.org/doi/10.1073/pnas.2317240121, that extraordinary high rate of mtDNA evolution in some plants is associated low mtDNA copy number. Lower Ne is the obvious explanation - but the authors instead put fwd homologous recombination, because it is less effective in low copy number environments. More complicated explanation, with no direct evidence? Thoughts?
#genomics #mtDNA #mitochondria #plastid #plants

Some #microalgae smartly switch energy systems to support growth under nutrient limitation https://microbiologycommunity.nature.com/posts/some-microalgae-smartly-switch-energy-systems-to-support-growth-under-nutrient-limitation

#Plastid-localized #xanthorhodopsin increases #diatom biomass and ecosystem productivity in iron-limited surface oceans https://www.nature.com/articles/s41564-023-01498-5

"marine #diatoms, a globally important group of #algae can switch between #photosynthesis and a light-driven #rhodopsin proton pump to support growth in iron-deprived waters"

#protists #microbes #metabolism #plankton

Some #microalgae smartly switch energy systems to support growth under nutrient limitation https://microbiologycommunity.nature.com/posts/some-microalgae-smartly-switch-energy-systems-to-support-growth-under-nutrient-limitation

#Plastid-localized #xanthorhodopsin increases #diatom biomass and ecosystem productivity in iron-limited surface oceans https://www.nature.com/articles/s41564-023-01498-5

"marine #diatoms, a globally important group of #algae can switch between #photosynthesis and a light-driven #rhodopsin proton pump to support growth in iron-deprived waters"

#protists #microbes #metabolism #plankton

Some #microalgae smartly switch energy systems to support growth under nutrient limitation https://microbiologycommunity.nature.com/posts/some-microalgae-smartly-switch-energy-systems-to-support-growth-under-nutrient-limitation

#Plastid-localized #xanthorhodopsin increases #diatom biomass and ecosystem productivity in iron-limited surface oceans https://www.nature.com/articles/s41564-023-01498-5

"marine #diatoms, a globally important group of #algae can switch between #photosynthesis and a light-driven #rhodopsin proton pump to support growth in iron-deprived waters"

#protists #microbes #metabolism #plankton

Some #microalgae smartly switch energy systems to support growth under nutrient limitation https://microbiologycommunity.nature.com/posts/some-microalgae-smartly-switch-energy-systems-to-support-growth-under-nutrient-limitation

#Plastid-localized #xanthorhodopsin increases #diatom biomass and ecosystem productivity in iron-limited surface oceans https://www.nature.com/articles/s41564-023-01498-5

"marine #diatoms, a globally important group of #algae can switch between #photosynthesis and a light-driven #rhodopsin proton pump to support growth in iron-deprived waters"

#protists #microbes #metabolism #plankton

Some #microalgae smartly switch energy systems to support growth under nutrient limitation https://microbiologycommunity.nature.com/posts/some-microalgae-smartly-switch-energy-systems-to-support-growth-under-nutrient-limitation

#Plastid-localized #xanthorhodopsin increases #diatom biomass and ecosystem productivity in iron-limited surface oceans https://www.nature.com/articles/s41564-023-01498-5

"marine #diatoms, a globally important group of #algae can switch between #photosynthesis and a light-driven #rhodopsin proton pump to support growth in iron-deprived waters"

#protists #microbes #metabolism #plankton

⏩Coming through!⤵️🕳️
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in #Arabidopsis.
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #plantscience #PlantSci

⏩Coming through!⤵️🕳️
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in #Arabidopsis.
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #plantscience #PlantSci

#SciFi? More like #PlantSci!
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in Arabidopsis
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #PlantScience

#SciFi? More like #PlantSci!
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in Arabidopsis
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #PlantScience

#SciFi? More like #PlantSci!
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in Arabidopsis
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #PlantScience

#SciFi? More like #PlantSci!
In a new #plant #cell #biology study, Zhang et al. find that #plastid KEA-type cation/H+ antiporters are required for vacuolar #protein trafficking in Arabidopsis
https://doi.org/10.1111/jipb.13537
@wileyplantsci
#JIPB #vacuole #stromules #antiporter #PlantScience

Hi there!, here's another #introduction for the latest migration wave:

I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in 🧬 and :protein: #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

BTW, don't forget that hashtags are very important in :mastodon:

see an example here:
https://genomic.social/@dsalas/109313672489288666

Hi there!, here's another #introduction for the latest migration wave:

I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in 🧬 and :protein: #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

BTW, don't forget that hashtags are very important in :mastodon:

see an example here:
https://genomic.social/@dsalas/109313672489288666

Hi there!, here's another #introduction for the latest migration wave:

I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in 🧬 and :protein: #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

BTW, don't forget that hashtags are very important in :mastodon:

see an example here:
https://genomic.social/@dsalas/109313672489288666

Hi there!, here's another #introduction for the latest migration wave:

I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in 🧬 and :protein: #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

BTW, don't forget that hashtags are very important in :mastodon:

see an example here:
https://genomic.social/@dsalas/109313672489288666

Hi there!, here's another #introduction for the latest migration wave:

I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in 🧬 and :protein: #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

BTW, don't forget that hashtags are very important in :mastodon:

see an example here:
https://genomic.social/@dsalas/109313672489288666

#introduction I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

#introduction I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

#introduction I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites

#introduction I’m a research associate in the Waller lab at The University of Cambridge. I'm interested in #evolution #genomics #bionformatics #symbiosis #plastid #mitochondria. I work on these topics in #MicrobialEukaryotes #protists #FreeLiving #parasites